Abstract: An optical interconnect module for coupling a photonic integrated chip to an optical ferrule is provided. The optical interconnect module may include a coupler for interfacing to the photonic integrated chip, the coupler comprising at least one guide pin. The optical interconnect module may include an optical ferrule configured for being removably attached to the coupler, the optical ferrule comprising at least one through hole for receiving the at least one guide pin from the coupler.

Abstract: An optical connector assembly includes a housing having a mating end shaped to receive an input connector. The housing also has an output end opposite the mating end. A ferrule is disposed within the housing and at least a portion of an optical cable is secured within the ferrule. A plug body is disposed within the housing and in thermal contact with the ferrule and having a plug-body front face. A thermal pad may include a thermal-pad rear face and a thermal-pad front face. The thermal-pad rear face may contact the plug-body front face, and the thermal-pad front face may contact the input connector when the input connector is mated with the optical connector assembly.

Abstract: An optical interconnect module for coupling a photonic integrated chip to an optical ferrule is provided. The optical interconnect module may include a coupler for interfacing to the photonic integrated chip, the coupler comprising at least one guide pin. The optical interconnect module may include an optical ferrule configured for being removably attached to the coupler, the optical ferrule comprising at least one through hole for receiving the at least one guide pin from the coupler.

Abstract: An illuminated tracer cable system includes a signal carrying cable comprising a signal connector on each end of the signal carrying cable, an electroluminescent (EL) wire coupled to the signal carrying cable, and a magnetic power connector coupled to an end of the EL wire configured to provide power to the EL wire.

Abstract: An optical housing assembly includes a housing member having a first face and a second face. The first face has a plurality of first cavities and the second face has a plurality of second cavities. Each of the first cavities is aligned with one of the second cavities and each of the first cavities and each of the second cavities has a housing locking member. Each of a plurality of first adapter inserts have a first mounting section inserted into one of the first cavities, a first receptacle configured to receive a first optical fiber connector therein, and a first connector latching member. Each of a plurality of second adapter inserts has a second mounting section inserted into one of the second cavities, a second receptacle, and a second connector latching member.

Abstract: An illuminated tracer cable system includes a signal carrying cable comprising a signal connector on each end of the signal carrying cable, an electroluminescent (EL) wire coupled to the signal carrying cable, and a magnetic power connector coupled to an end of the EL wire configured to provide power to the EL wire.

Abstract: A removal clip is provided for disconnecting a fiber optic connector from an array of installed fiber optic connectors. The removal clip includes an engagement portion for engaging the connector and a force transmitting structure that allows digital removal force from a user to be applied at a distance from the connector. The engagement portion may be generally U-shaped and includes opposing latch arms configured to accommodate the body of a fiber optic connector. The latch arms permit the engagement portion to snap attach to the connector. The force transmitting structure may include a beam and a handle extending axially or radially from the gripping section. Also included is an assembly of a removal clip attached to a fiber optic connector.

Abstract: An interconnect system (30, 100) includes a transceiver module assembly (105) that is mountable in an industrial receptacle (28, 103). The receptacle mates to an industrial optical connector (34) to form an environmentally sealed connection. The receptacle has an interior passageway (143, 162) and mating means (124) for attaching the module assembly. The module assembly includes a spring-loaded module cage (50) for receiving active devices (48), such as SFP transceivers. The spring-loaded module cage can adjust its position within the receptacle to accommodate different type of modules from various vendors. When attached to the platform, the module assembly is positioned so that the cage's open end is accessible through the receptacle's passageway. Users have the option of plugging/unplugging the transceiver module either through the passageway or by removing the module assembly from the receptacle.

Abstract: A removal clip is provided for disconnecting a fiber optic connector from an array of installed fiber optic connectors. The removal clip includes an engagement portion for engaging the connector and a force transmitting structure that allows digital removal force from a user to be applied at a distance from the connector. The engagement portion may be generally U-shaped and includes opposing latch arms configured to accommodate the body of a fiber optic connector. The latch arms permit the engagement portion to snap attach to the connector. The force transmitting structure may include a beam and a handle extending axially or radially from the gripping section. Also included is an assembly of a removal clip attached to a fiber optic connector.

Abstract: An optical fiber assembly includes a ferrule body with a plurality of optical fibers. An end face of each optical fiber extends past the front face of the ferrule body. A beam expanding element is generally adjacent the front face of the ferrule body and has a lens array aligned with the optical fibers. An index matched resilient medium engages the rearwardly facing surface of the beam expanding element and the end faces of the optical fibers.

Abstract: An optical fiber ferrule assembly includes a ferrule body with an optical fiber receiving nest configured to receive a plurality of optical fibers. The nest opens laterally relative to the optical fiber axis to facilitate insertion of the optical fibers into the optical fiber receiving nest. The nest includes a plurality of arcuate surfaces configured to engage and align the optical fibers. A cover is secured to the ferrule body to secure the optical fibers within the optical fiber receiving nest. A ferrule and a method of assembly are also provided.

Abstract: A tool for cleaving a plastic optical fiber has a body with a cleaving aperture at the insertion face of the body and through which the termination end section of the plastic optical fiber is inserted and in which an operative section is positioned upon inserting the plastic optical fiber into the tool. A cutting blade has a cutting edge and is moveable along a cutting path between a first operative position at which the cutting edge is spaced from the cleaving axis and a second operative position at which the cutting edge intersects the cleaving axis to cleave the plastic optical fiber to create an optical finish on an end surface of the operative section of the plastic optical fiber. A clearance region is located at the termination face of the body and generally aligned with the cleaving aperture and in which the termination end section may deflect upon engagement of the cutting blade with the plastic optical fiber.

Abstract: A tool for cleaving a plastic optical fiber has a body with a cleaving aperture at the insertion face of the body and through which the termination end section of the plastic optical fiber is inserted and in which an operative section is positioned upon inserting the plastic optical fiber into the tool. A cutting blade has a cutting edge and is moveable along a cutting path between a first operative position at which the cutting edge is spaced from the cleaving axis and a second operative position at which the cutting edge intersects the cleaving axis to cleave the plastic optical fiber to create an optical finish on an end surface of the operative section of the plastic optical fiber. A clearance region is located at the termination face of the body and generally aligned with the cleaving aperture and in which the termination end section may deflect upon engagement of the cutting blade with the plastic optical fiber.